In 2025, staying private online is less about one “magic” tool and more about tightening several everyday weak points: DNS lookups, cross-site tracking, and browser identifiers. Many people rely on heavy browser extensions to block trackers, but those often cause real-world problems such as broken logins, missing videos, or checkout errors. A more stable approach is to combine encrypted DNS with sensible browser settings and lightweight tracker blocking methods that work across devices without constantly interfering with normal browsing.
DNS is what turns a website name into the IP address your device uses to connect. Traditional DNS is usually sent in plain text, which means networks can often see which domains you request, even when the websites themselves use HTTPS. Encrypted DNS reduces this visibility by sending DNS requests through an encrypted tunnel, making it far harder for third parties on the network to monitor or manipulate your lookups.
In practical terms, you will mostly see two standards: DNS-over-HTTPS (DoH) and DNS-over-TLS (DoT). DoH wraps DNS queries inside HTTPS traffic, which often makes it blend in with normal web connections. DoT uses a dedicated encrypted TLS connection for DNS. Both approaches aim to prevent passive snooping and reduce the risk of DNS tampering on public Wi-Fi, hotels, cafés, and other untrusted networks.
It’s important to be realistic about the limits. Encrypted DNS does not hide the IP addresses you connect to, and it doesn’t stop tracking methods that happen inside a website or app itself. What it does is remove one of the easiest sources of behavioural data — your list of DNS queries — and it makes network-based interference much harder. As a baseline privacy step in 2025, it’s one of the most practical settings you can turn on.
When you enable DoH or DoT, the DNS resolver you choose becomes the service answering your queries. That matters because the resolver may have its own logging practices, retention rules, and security capabilities. In 2025, most well-known resolvers publish privacy policies, but they still differ in how long they keep data, whether they anonymise logs, and what they share for security or performance analytics.
You also need to decide whether you want a resolver that does filtering. Some encrypted DNS providers offer options that block malware, phishing, and tracking domains. This can meaningfully reduce tracking across your entire device, including apps that don’t respect browser protections. The trade-off is that filtering can occasionally block a domain a service needs, which may affect sign-in systems, embedded media, or customer support tools.
A balanced strategy is to start with encrypted DNS without aggressive filtering, then gradually add filtering if your browsing remains stable. If something breaks, you can usually switch to a less strict profile or temporarily disable filtering. The goal is not to “block everything”, but to reduce the most common and intrusive tracking patterns without turning the internet into a troubleshooting exercise.
The most effective place to enable encrypted DNS is at the operating system level. If you only enable DoH inside one browser, other apps continue using the network’s default DNS. System-level encrypted DNS provides broader coverage and ensures that messaging apps, social apps, and built-in browsers are not quietly leaking DNS queries in the background.
In 2025, Android commonly supports DoT through the “Private DNS” setting, which applies device-wide. Windows 11 includes native support for DoH via network settings, allowing you to specify compatible resolvers and enforce encryption. On iPhone and iPad, encrypted DNS is typically applied via a configuration profile from a trusted provider, enabling encrypted DNS system-wide without needing separate apps that stay running in the background.
After enabling encrypted DNS, you should verify it with a DNS test page or a provider’s own diagnostic tool. Some networks — particularly corporate Wi-Fi, schools, or hotels — may block encrypted DNS or enforce their own DNS policies. If your connection suddenly becomes unstable, it may be due to network restrictions rather than a problem with your device settings.
A frequent mistake is enabling encrypted DNS in a browser and assuming the whole device is protected. In reality, apps may still use the system resolver unless you configure encrypted DNS at the OS level. Another issue is picking a resolver address that supports normal DNS but not encrypted DNS, which can lead to silent fallback to unencrypted queries or inconsistent behaviour across different networks.
Another common problem is over-filtering too early. If your DNS resolver blocks a wide range of advertising and tracking domains, some websites may lose important functionality. Login systems that rely on third-party identity providers, payment pages, embedded video hosting, and analytics-based anti-fraud checks can sometimes fail. The solution is to start with moderate blocking and adjust only when you are confident it won’t disrupt your daily use.
Finally, people often forget that Wi-Fi networks can force DNS via captive portals or policy settings. If encrypted DNS stops working only on certain networks, that’s a strong signal the network is interfering. In those cases, switching to mobile data, using a different Wi-Fi, or temporarily disabling encrypted DNS may be necessary. The key is to keep your setup flexible while maintaining strong defaults.
Tracker blocking is most useful when it’s stable. In 2025, many websites are built around third-party scripts, so aggressive blocking can cause pages to load incorrectly or features to disappear. That’s why relying solely on heavy browser extensions often becomes frustrating: you end up constantly toggling settings or adding exceptions just to use ordinary services.
A more reliable approach is to combine DNS-level filtering with built-in browser protections. DNS-level blocking prevents your device from connecting to known tracking domains in the first place, which works across all apps. Browser protections can then focus on blocking tracking scripts, fingerprinting attempts, and third-party cookies where it matters most — inside the web experience itself.
The best balance is usually a layered setup. DNS-level blocking removes large volumes of background tracking, while the browser handles more complex tracking behaviours. This reduces the need for multiple extensions and lowers the chance that your browser will feel slow, unstable, or constantly broken.
Start with third-party cookie restrictions. In 2025, major browsers increasingly limit third-party cookies by default, but you should still check your settings and ensure cross-site tracking is restricted. This alone reduces many advertising networks’ ability to follow you between sites. Where available, enable stricter tracking protection for everyday browsing, and keep a “relaxed” mode for websites that genuinely require more permissive settings.
Next, review browser features that can expose identifiers. Some browsers offer settings to reduce fingerprinting, limit access to device sensors, and restrict unnecessary permissions such as location, Bluetooth scanning, or camera access. These controls matter because tracking is not just about cookies — it also relies on device characteristics, installed fonts, screen size, and behavioural patterns that create a recognisable profile over time.
Finally, treat extensions as optional, not mandatory. If you use an ad-blocker, choose one that is widely maintained and known for compatibility, then keep its ruleset moderate. The goal is to minimise tracking while maintaining functionality. If you find you need dozens of exceptions, it’s a sign your approach is too aggressive and should be simplified.

After you turn on encrypted DNS or change your browser protections, you should verify that the changes are active. Many people assume “it must be working”, but in reality DNS encryption can fail silently, and tracker blocking can vary depending on the network you are on. Testing ensures you know what is happening and helps you troubleshoot quickly if something doesn’t behave as expected.
A good verification process checks two things: whether your DNS traffic is encrypted and whether trackers are being blocked. These are separate layers. You might have encrypted DNS working perfectly but still allow trackers inside the browser. Or you might block trackers aggressively but still leak DNS queries in plain text on some networks. Testing both layers gives you clarity.
Verification also helps you maintain a stable setup over time. DNS providers change endpoints, operating systems update their network stack, and browsers adjust privacy protections. In 2025, privacy isn’t a one-time fix — it’s a set of defaults you occasionally review, especially after OS updates or when switching devices.
To check encrypted DNS, use a reputable diagnostic page that detects whether your resolver is using DoH or DoT. Many DNS providers also offer test pages that confirm encrypted transport. If the results show plain DNS, re-check the system settings, confirm the resolver supports encryption, and test again on a different network to see if the Wi-Fi is interfering.
To check tracker blocking, use a tracker test page that loads common analytics and advertising domains and reports what was blocked. If you enabled DNS-level filtering, you should see fewer third-party domains resolving. If your browser has built-in tracking protection, you should see blocked trackers listed in its privacy report. Run the test on both Wi-Fi and mobile data because network policies can vary.
In everyday browsing, useful signals include fewer retargeted ads, fewer repetitive cookie prompts, and a noticeable drop in third-party requests shown in browser privacy reports. If a site breaks, avoid disabling all protection. Instead, relax protection only for that site or temporarily switch to a less strict filtering profile. That approach keeps your overall privacy baseline strong without turning browsing into constant repair work.